Condensing drying type cleaning and disinfecting machine

Abstract

This utility model discloses a condensation-drying cleaning and disinfection machine, suitable for medium- and high-level disinfection of heat-sensitive and moisture-resistant medical devices. The machine consists of a refrigeration chamber, a cleaning and disinfection chamber, a functional component chamber, and a liquid storage chamber. The various chambers and components are connected by pipes and wires to form a cleaning system, a disinfection system, a condensation-drying system, and a real-time monitoring system. Under the control of an intelligent module, the machine can achieve fully automated operation of the entire process, including dilution of cleaning and disinfectant concentrates, spray soaking for cleaning and disinfection, rinsing of cleaning agent residues with clean water, rinsing of disinfectant residues with sterile water, sterile air internal circulation for condensation and drying, discharge of cleaning and disinfectant waste liquid, and wet-heat self-cleaning disinfection. During the process, the concentration and temperature of the cleaning agent, disinfectant, and rinsing water can be monitored and controlled in real time. The cleaning agent and disinfectant can be recycled and reused through staggered independent circulation paths and separate tank storage of the cleaning agent, disinfectant, and rinsing water. At the same time, the machine can print and store disinfection records, providing data traceability support for hospital infection control.

Description

Technical Field

[0001] This utility model relates to the field of medical cleaning and disinfection equipment technology, specifically to a condensation drying type cleaning and disinfection machine. Background Technology

[0002] For heat-sensitive medical devices requiring high-level disinfection or sterilization, such as those containing electronic components, implants, and flexible endoscopes, medical institutions currently have relatively mature equipment available, including hydrogen peroxide plasma sterilizers, ethylene oxide sterilizers, and formaldehyde fumigation sterilizers. However, for hundreds of other heat-sensitive medical devices requiring medium-level disinfection, there is currently no corresponding automated equipment available for medical institutions. This shortage of specialized equipment forces medical institutions to generally use manual methods for disinfection: staff manually perform initial washing, enzyme washing, rinsing, disinfection, final washing, and hot air drying in a completely open environment. The equipment and tools used are extremely simple, generally including a disinfection tank (bucket), measuring cups, test strips, and ventilation equipment. During the work period, staff must wear protective clothing, masks, face shields, and gloves. This manual operation mode has multiple systemic defects: 1. Serious occupational exposure: The space around the washing and disinfection tank is constantly filled with aerosols containing cleaning agents, disinfectants and pathogens, which poses a threat to the health of operators; 2. Difficulty in controlling quality fluctuations: Numerous manual operation steps result in a wide range of factors controlling the quality of disinfection, leading to poor stability of disinfection effects and a lack of traceability data; 3. High overall costs: There are many types and large quantities of heat-sensitive medical devices or items that require moderate-level disinfection, resulting in high overall labor and consumable costs for hospitals.

[0003] The aforementioned situation in medical institutions objectively reflects a fundamental fact: there is currently a lack of horizontal sterilization equipment for heat-sensitive medical devices on the market. This not only significantly increases the difficulty and operating costs of infection control, but also creates considerable hidden dangers for infection control due to unstable sterilization quality and difficulty in data traceability. Therefore, developing and supplying corresponding automated equipment has become an important requirement for improving medical safety and efficiency. Summary of the Invention

[0004] To address the lack of horizontal disinfection equipment for heat-sensitive medical devices, this invention provides a condensation-drying cleaning and disinfection machine. Under the control of an intelligent module, this machine can automate the entire process, including dilution of cleaning and disinfectant concentrates, spray immersion cleaning and disinfection, rinsing with clean water to remove cleaning and disinfectant residues, rinsing with sterile water to remove disinfectant residues, sterile air internal circulation condensation drying, discharge of cleaning and disinfectant waste liquid, and moist heat self-cleaning disinfection. During operation, the machine can monitor and control the concentration and temperature of cleaning agents, disinfectants, and rinsing water in real time. Through staggered independent circulation paths and separate tank storage for cleaning agents, disinfectants, and rinsing water, the machine enables the recycling and reuse of cleaning agents and disinfectants. It can also print and store disinfection records, providing data traceability support for hospital infection control.

[0005] To achieve the above objectives, the technical solution adopted by this utility model is as follows: The condensation drying type cleaning and disinfection machine has a cabinet-type single-door structure, characterized in that: the machine consists of a refrigeration chamber, a cleaning and disinfection chamber, a functional component chamber, and a liquid storage chamber. The refrigeration chamber is equipped with a refrigeration compressor and an external condenser; the cleaning and disinfection chamber is equipped with an evaporator, an internal condenser, a rotating screen, a spray arm, a rack, an ultrasonic cleaning and disinfection tank, and an internal circulating fan, and is divided into multiple compartments by the longitudinal and transverse beams of the cabinet's exterior facade, each compartment being equipped with a viewing window or cabinet door; the functional component chamber is equipped with a touch screen, a printer, a card reader, indicator lights, a door lock, an electrical control box, a cleaning agent concentrate tank, a disinfectant concentrate tank, a solenoid valve, a flow meter, a circulating spray pump, a circulating filter, a drain pump, and a real-time concentration detector; the liquid storage chamber is equipped with a cleaning agent storage tank and a disinfectant storage tank; the components of the refrigeration chamber, cleaning and disinfection chamber, functional component chamber, and liquid storage chamber are connected by pipes and wires, constituting the cleaning system, disinfection system, condensation drying system, and real-time detection system of the condensation drying type cleaning and disinfection machine.

[0006] The cleaning system consists of a cleaning agent concentrate dilution branch, a cleaning agent circulation cleaning branch, a cleaning water rinsing branch for cleaning agent residue, and a cleaning agent waste liquid discharge branch. The components and connections of each branch are as follows: The cleaning agent concentrate dilution branch includes a cleaning agent concentrate injection branch and a clean water injection branch. The components and connections of the cleaning agent concentrate injection branch are as follows: the outlet of the cleaning agent concentrate tank is connected to the inlet of the cleaning agent concentrate control valve via a pipe; the outlet of the cleaning agent concentrate control valve is connected to the inlet of the cleaning agent flow meter via a pipe; the outlet of the cleaning agent flow meter is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A; the outlet of the infusion temperature sensor and the instantaneous heater A is connected to the inlet of a one-way valve via a pipe; and the outlet of the one-way valve is connected to the inlet of the cleaning agent storage tank control valve via a pipe. The outlet of the liquid tank control valve is connected to the inlet of the cleaning agent storage tank via a pipeline; the components and connection method of the clean water injection branch are as follows: the outlet of the external clean water filter is connected to the inlet of the clean water control valve, the outlet of the clean water control valve is connected to the inlet of the clean water flow meter via a pipeline, the outlet of the clean water flow meter is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A, the outlet of the infusion temperature sensor and the instantaneous heater A is connected to the inlet of the check valve via a pipeline, the outlet of the check valve is connected to the inlet of the cleaning agent storage tank control valve via a pipeline, and the outlet of the cleaning agent storage tank control valve is connected to the inlet of the cleaning agent storage tank via a pipeline.

[0007] The cleaning agent circulation cleaning branch consists of the following components and connections: the outlet of the cleaning agent storage tank is connected to the inlet of the cleaning agent control valve via a pipe; the outlet of the cleaning agent control valve is connected to the inlet of the circulation filter via a pipe; the outlet of the circulation filter is connected to the inlet of the circulation spray pump via a pipe; the outlet of the circulation spray pump is connected to the inlet of the main spray valve via a pipe; the outlet of the main spray valve is connected to the inlet of the circulation temperature sensor and instantaneous heater B via a pipe; the outlet of the circulation temperature sensor and instantaneous heater B is connected to the inlet of the infusion pipe; the outlet of the infusion pipe is connected in parallel to the inlet of the rotary screen tank control valve, the inlet of the rack spray arm control valve, and the inlet of the ultrasonic cleaning and disinfection tank infusion control valve; the outlet of the rotary screen tank control valve is connected to the inlet of the spray arm; and the outlet of the spray arm consists of multiple arranged spray holes. The cleaning and disinfection chamber is connected to the rotating mesh drum, and the cleaning agent is sprayed onto the rotating mesh drum. The outlet end of the spray arm control valve of the rack is connected to the inlet end of the spray arm. The outlet end of the spray arm has multiple spray holes arranged in a row. The ultrasonic cleaning and disinfection tank infusion control valve outlet end is connected to the inlet end of the ultrasonic cleaning and disinfection tank through a pipeline. The outlet end of the ultrasonic cleaning and disinfection tank outlet end is connected to the inlet end of the ultrasonic cleaning and disinfection tank drain control valve. The outlet end of the ultrasonic cleaning and disinfection tank drain control valve outlet end is connected to the cleaning and disinfection chamber. The bottom of the cleaning and disinfection chamber is provided with a liquid discharge hole inlet. The outlet of the liquid discharge hole outlet is connected to the inlet end of the cleaning agent storage tank control valve through a pipeline. The outlet end of the cleaning agent storage tank control valve is connected to the inlet end of the cleaning agent storage tank through a pipeline, thereby forming a cleaning agent circulation cleaning branch.

[0008] The clean water rinsing and cleaning agent residue residual branch: The outlet of the external clean water filter is connected to the inlet of the clean water branch control valve. The outlet of the clean water branch control valve is connected to the inlet of the circulating temperature sensor and the instantaneous heater B via a pipeline. The outlet of the circulating temperature sensor and the instantaneous heater B is connected to the inlet of the infusion pipe. The outlet of the infusion pipe is connected in parallel to the inlet of the rotating screen barrel control valve, the inlet of the rack spray arm control valve, and the inlet of the ultrasonic cleaning and disinfection tank infusion control valve. The outlet of the rotating screen barrel control valve is connected to the inlet of the spray arm. The outlet of the spray arm has multiple arranged spray holes that communicate with the cleaning and disinfection chamber and spray clean water onto the rotating screen barrel. The outlet of the rack spray arm control valve is connected to the inlet of the spray arm. The outlet of the spray arm has multiple arranged spray holes that communicate with the cleaning and disinfection chamber and spray clean water onto the rotating screen barrel. On the shelf; the outlet end of the ultrasonic cleaning and disinfection tank infusion control valve is connected to the inlet end of the ultrasonic cleaning and disinfection tank via a pipeline, the outlet end of the ultrasonic cleaning and disinfection tank is connected to the inlet end of the ultrasonic cleaning and disinfection tank drain control valve, and the outlet end of the ultrasonic cleaning and disinfection tank drain control valve is in communication with the cleaning and disinfection chamber; the bottom of the cleaning and disinfection chamber is provided with a liquid discharge hole inlet, the outlet of the liquid discharge hole is connected to the inlet end of the flushing discharge valve via a pipeline, the outlet end of the flushing discharge valve is connected to the inlet end of the circulating filter and the drain pump via a pipeline, the outlet end of the circulating filter is connected to the inlet end of the circulating spray pump via a pipeline, the outlet end of the circulating spray pump is connected to the inlet end of the spray main valve via a pipeline; the outlet end of the drain pump is connected to the inlet end of the drain control valve via a pipeline, and the outlet end of the drain control valve is connected to the external drainage network via a pipeline.

[0009] The waste liquid discharge branch of the cleaning agent: The components and connection method of the branch are as follows: the outlet of the cleaning agent storage tank is connected to the inlet of the cleaning agent control valve through a pipeline, the outlet of the cleaning agent control valve is connected to the inlet of the drain pump through a pipeline, the outlet of the drain pump is connected to the inlet of the drain control valve through a pipeline, and the outlet of the drain control valve is connected to the external drainage network through a pipeline.

[0010] The disinfection system consists of a disinfectant concentrate dilution branch, a disinfectant circulation disinfection branch, a sterile water rinsing branch for disinfectant residue, and a disinfectant waste liquid discharge branch. The components and connections of each branch are as follows: The disinfectant concentrate dilution branch includes a disinfectant concentrate injection branch and a clean water injection branch. The components and connections of the disinfectant concentrate injection branch are as follows: the outlet of the disinfectant concentrate tank is connected to the inlet of the disinfectant concentrate control valve via a pipe; the outlet of the disinfectant concentrate control valve is connected to the inlet of the disinfectant flow meter via a pipe; the outlet of the disinfectant flow meter is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A; the outlet of the infusion temperature sensor and the instantaneous heater A is connected to the inlet of a one-way valve via a pipe; and the outlet of the one-way valve is connected to the inlet of the disinfectant storage tank control valve via a pipe. The outlet of the liquid tank control valve is connected to the inlet of the disinfectant storage tank via a pipeline; the components and connection method of the clean water injection branch are as follows: the outlet of the external clean water filter is connected to the inlet of the clean water control valve, the outlet of the clean water control valve is connected to the inlet of the clean water flow meter via a pipeline, the outlet of the clean water flow meter is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A, the outlet of the infusion temperature sensor and the instantaneous heater A is connected to the inlet of the check valve via a pipeline, the outlet of the check valve is connected to the inlet of the disinfectant storage tank control valve via a pipeline, and the outlet of the disinfectant storage tank control valve is connected to the inlet of the disinfectant storage tank via a pipeline.

[0011] The disinfectant circulation disinfection branch consists of the following components and connections: the outlet of the disinfectant storage tank is connected to the inlet of the disinfectant control valve via a pipe; the outlet of the disinfectant control valve is connected to the inlet of the circulation filter via a pipe; the outlet of the circulation filter is connected to the inlet of the circulation spray pump via a pipe; the outlet of the circulation spray pump is connected to the inlet of the main spray valve via a pipe; the outlet of the main spray valve is connected to the inlet of the circulation temperature sensor and instantaneous heater B via a pipe; the outlet of the circulation temperature sensor and instantaneous heater B is connected to the inlet of the infusion pipe; the outlet of the infusion pipe is connected in parallel to the inlet of the rotating mesh drum control valve, the inlet of the rack spray arm control valve, and the inlet of the ultrasonic cleaning and disinfection tank infusion control valve; the outlet of the rotating mesh drum control valve is connected to the inlet of the spray arm; and the outlet of the spray arm has multiple arranged spray holes. The cleaning and disinfection chamber is interconnected, spraying disinfectant onto a rotating mesh drum. The outlet end of the spray arm control valve on the rack is connected to the inlet end of the spray arm. The outlet end of the spray arm has multiple arranged spray holes, communicating with the cleaning and disinfection chamber and spraying disinfectant onto the rack. The outlet end of the ultrasonic cleaning and disinfection tank's infusion control valve is connected to the inlet end of the ultrasonic cleaning and disinfection tank via a pipeline. The outlet end of the ultrasonic cleaning and disinfection tank is connected to the inlet end of the ultrasonic cleaning and disinfection tank's drain control valve, which is also connected to the cleaning and disinfection chamber. The bottom of the cleaning and disinfection chamber has an inlet for a liquid discharge hole. The outlet of the liquid discharge hole is connected to the inlet end of the disinfectant storage tank control valve via a pipeline. The outlet end of the disinfectant storage tank control valve is connected to the inlet end of the disinfectant storage tank via a pipeline, thus forming a disinfectant circulation cleaning branch.

[0012] The sterile water rinsing and disinfectant residue residual branch: The outlet end of the external sterile water pipe is connected to the inlet end of the sterile water control valve. The outlet end of the sterile water control valve is connected to the inlet end of the circulating temperature sensor and the instantaneous heater B via a pipeline. The outlet ends of the circulating temperature sensor and the instantaneous heater B are connected to the inlet end of the infusion pipe. The outlet end of the infusion pipe is connected in parallel to the inlet ends of the rotating screen barrel control valve, the inlet ends of the rack spray arm control valve, and the inlet ends of the ultrasonic cleaning and disinfection tank infusion control valve. The outlet end of the rotating screen barrel control valve is connected to the inlet end of the spray arm. The outlet end of the spray arm has multiple arranged spray holes that communicate with the cleaning and disinfection chamber and spray sterile water onto the rotating screen barrel. The outlet end of the rack spray arm control valve is connected to the inlet end of the spray arm. The outlet end of the spray arm has multiple arranged spray holes that communicate with the cleaning and disinfection chamber and spray sterile water onto the rotating screen barrel. The ultrasonic cleaning and disinfection tank is placed on a rack. The outlet of the ultrasonic cleaning and disinfection tank's infusion control valve is connected to the inlet of the ultrasonic cleaning and disinfection tank via a pipeline. The outlet of the ultrasonic cleaning and disinfection tank is connected to the inlet of the ultrasonic cleaning and disinfection tank's drain control valve. The outlet of the ultrasonic cleaning and disinfection tank's drain control valve is connected to the cleaning and disinfection chamber. The bottom of the cleaning and disinfection chamber has an inlet for a liquid discharge hole. The outlet of the liquid discharge hole is connected to the inlet of a flushing drain valve via a pipeline. The outlet of the flushing drain valve is connected to the inlet of a circulating filter and a drain pump via a pipeline. The outlet of the circulating filter is connected to the inlet of a circulating spray pump via a pipeline. The outlet of the circulating spray pump is connected to the inlet of a main spray valve via a pipeline. The outlet of the drain pump is connected to the inlet of a drain control valve via a pipeline. The outlet of the drain control valve is connected to an external drainage network via a pipeline.

[0013] The disinfectant waste liquid discharge branch: The components and connection method of the branch are as follows: the outlet at the bottom of the disinfectant storage tank is connected to the inlet of the disinfectant control valve through a pipe; the outlet of the disinfectant control valve is connected to the inlet of the drain pump through a pipe; the outlet of the drain pump is connected to the inlet of the drain control valve through a pipe; and the outlet of the drain control valve is connected to the external drainage network through a pipe.

[0014] The components and their connections of the condensation drying system are as follows: the output end of the refrigeration compressor in the refrigeration chamber is connected in parallel with the inlet ends of the inner condenser control valve and the outer condenser control valve via refrigerant pipes; the outlet end of the inner condenser control valve is connected to the inlet end of the inner condenser; the outlet end of the outer condenser and the inner condenser are connected to the inlet end of the dryer filter via refrigerant pipes; the outlet end of the dryer filter is connected to the inlet ends of the capillary tubes on the left and right walls of the cleaning and disinfection chamber via refrigerant pipes; the outlet end of the capillary tubes is connected to the inlet end of the evaporator; and the outlet end of the evaporator is connected to the input end of the refrigeration compressor via refrigerant pipes. An internal circulation fan and a temperature and humidity sensor are installed inside the cleaning and disinfection chamber, thus forming the condensation drying system.

[0015] The components and connections of the real-time detection system are as follows: The electrical control box is connected to the touch screen, real-time concentration detector, infusion temperature sensor and instantaneous heater A, circulation temperature sensor and instantaneous heater B, and temperature and humidity sensor via wires. It monitors the cleaning agent, disinfectant, clean water, sterile water, and the temperature, humidity, and concentration values ​​inside the chamber of the condensing drying cleaning and disinfection machine in real time, and adjusts the opening and closing of the infusion temperature sensor and instantaneous heater A, circulation temperature sensor and instantaneous heater B, cleaning agent concentrate control valve, cleaning agent flow meter, disinfectant concentrate control valve, disinfectant flow meter, internal condenser control valve, and external condenser control valve in real time according to the system's set threshold.

[0016] Compared with existing technologies and equipment, the advantages of this utility model condensation drying cleaning and disinfection machine are: it makes up for the shortcomings of existing manual cleaning and disinfection equipment such as washing and disinfection tanks and washing and disinfection barrels, and can replace manual labor to automatically clean and disinfect various heat-sensitive and moisture-resistant medical devices that require medium or high-level disinfection. This not only reduces the labor intensity of manual operation, but also improves work efficiency and the quality assurance of cleaning and disinfection. Attached Figure Description

[0017] To more clearly illustrate the technical solutions of the embodiments of this utility model, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, although the accompanying drawings described below are schematic diagrams of the principle structure of this utility model, rather than specific product processing drawings, those skilled in the art can obtain the structural diagram of the actual product or a modified schematic diagram of the principle structure by simple transformation and adjustment based on these schematic diagrams without creative effort.

[0018] Figure 1 3D schematic diagram of a condensation drying type cleaning and disinfection machine; Figure 2 Schematic diagram of the cleaning and disinfection system; Figure 3 Schematic diagram of the condensation drying system; Figure 4 Schematic diagram of the transverse centerline section of the upper window of the cleaning and disinfection chamber; Figure 5 Schematic diagram of the functional component compartment structure; Figure 6 Schematic diagram of a rotating mesh drum.

[0019] In the attached diagram, the component names represented by each number are as follows: 1-Refrigeration compartment, 2-Cleaning and disinfection compartment, 3-Functional component compartment, 4-Liquid storage compartment, 5-Refrigeration compressor, 6-External condenser, 7-Viewing cabinet door, 8-Touch screen, 9-Printer, 10-Card reader, 11-Indicator light, 12-Door lock, 13-Evaporator, 14-Internal condenser, 15-Rotating screen tank, 16-Spray arm, 17-Rotating screen tank control valve, 18-Shelf, 19-Shelf spray arm control valve, 20-Ultrasonic cleaning and disinfection compartment 21-Ultrasonic cleaning and disinfection tank infusion control valve; 22-Ultrasonic cleaning and disinfection tank drain control valve; 23-Internal circulation fan; 24-Accumulated liquid discharge hole; 25-Infusion pipe; 26-Electrical control box; 27-Cleaning agent concentrate tank; 28-Disinfectant concentrate tank; 29-Real-time concentration detector; 30-Circulation filter; 31-Circulation spray pump; 32-Drain pump; 33-Cleaning agent storage tank; 34-Disinfectant storage tank; 35-Cleaning agent... 36-Oil solution control valve; 37-Detergent flow meter; 38-Infusion temperature sensor and instantaneous heater A; 39-Check valve; 40-Detergent storage tank control valve; 41-External source clean water filter; 42-Clean water control valve; 43-Clean water flow meter; 44-Detergent control valve; 45-Spray main valve; 46-Circulating temperature sensor and instantaneous heater B; 47-Clean water branch control valve; 48-Flush discharge valve; 49-Drainage control valve; 40-Disinfection 50-Disinfectant Flow Meter, 51-Disinfectant Storage Tank Control Valve, 52-Disinfectant Control Valve, 53-External Sterile Water Pipe, 54-Sterile Water Control Valve, 55-Internal Condenser Control Valve, 56-External Condenser Control Valve, 57-Dryer Filter, 58-Capillary Tube, 59-Temperature and Humidity Sensor, 60-Foamed Insulation Layer, 61-Stainless Steel Inner Liner, 62-Drain Pipe, 63-Interior Wall Panel of Cabin, 64-Direct Drive Motor. Detailed Implementation

[0020] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments, so that the advantages and features of the present invention can be more easily understood by those skilled in the art, thereby making a clearer and more definite definition of the protection scope of the present invention. Of course, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0021] In the description of this utility model, the "clean water" refers to tap water that meets or exceeds the standards for drinking water. Terms such as "inner side," "outer side," "upper," "lower," "middle," "front," and "rear," which indicate orientation or positional relationship, are used only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the components referred to must have a specific orientation or must be operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0022] It is particularly important to clarify that: 1. To ensure the safety and stability of medical device disinfection, the cleaning function of this condensation drying type cleaning and disinfection machine is limited to enzyme washing and rinsing, excluding pretreatment and initial washing. The corresponding pretreatment and initial washing processes should be performed manually in accordance with relevant regulations.

[0023] 2. The disinfectant described in this utility model may be selected from o-phthalaldehyde, peracetic acid, glutaraldehyde, chlorine dioxide, acidic oxidizing electrolyzed water, and compound chlorine-containing disinfectant. However, these recommendations are not intended to limit the range of disinfectants applicable to this utility model patent. Any equivalent principle, structural or procedural transformations made using the contents of this utility model specification and drawings, or the use of other disinfectants with similar or superior performance to the above-mentioned disinfectants, are within the scope of this utility model overview and the corresponding patent protection.

[0024] 3. The threshold settings for temperature, concentration, and duration described in this utility model are related to the selected type of disinfectant and the disinfection level requirements. Different disinfectants and different disinfection levels often have significantly different thresholds, which need to be set accurately and scientifically according to specific embodiments.

[0025] 4. Given the large number and diverse characteristics of heat-sensitive items requiring cleaning and disinfection in medical institutions, the cleaning and disinfection chamber structure of this embodiment includes a conventional shelf for placing cleaning and disinfection baskets, as well as a rotating mesh tank and an ultrasonic cleaning and disinfection tank. However, this is not a limitation on the number of chambers and structural features of the product of this utility model. Any equivalent principle, structural, or process transformations made using the description and drawings of this utility model are also within the scope of protection of this utility model and the corresponding patent rights.

[0026] Figure 1 A three-dimensional schematic diagram of a condensation drying type cleaning and disinfection machine. This utility model is a cabinet-type condensation drying type cleaning and disinfection machine with a single-door structure, consisting of a refrigeration chamber 1, a cleaning and disinfection chamber 2, a functional component chamber 3, and a liquid storage chamber 4. The upper part of the refrigeration chamber 1 is open, and a refrigeration compressor 5 and an external condenser 6 are installed therein. The cleaning and disinfection chamber 2 is divided into six compartments by the longitudinal and transverse beams on the exterior of the cabinet. Each compartment is equipped with a viewing window cabinet door 7, which can be opened freely under normal circumstances. During operation, the system automatically locks and seals the compartments, and the cleaning and disinfection status of each compartment in the cleaning and disinfection chamber 2 can be monitored through the viewing window cabinet door 7. The functional component chamber 3 is equipped with a touch screen 8, a printer 9, a card reader 10, and indicator lights 11 on the front, and a door lock 12 on the right side. The printer 9 automatically records relevant data during the cleaning and disinfection process, which can be archived, viewed, and traced for analysis. The liquid storage chamber 4 is located in the internal space at the bottom of the cabinet.

[0027] Figure 2This diagram illustrates the principle of a cleaning and disinfection system. It shows the connections and system organization of the internal components of the refrigeration chamber 1, cleaning and disinfection chamber 2, functional component chamber 3, and liquid storage chamber 4. Specifically, the refrigeration chamber 1 is equipped with a refrigeration compressor 5 and an external condenser 6. The cleaning and disinfection chamber 2 is equipped with cleaning and disinfection end components, including evaporators 13 on both sides of the chamber, an internal condenser 14 on the rear wall, a rotating screen tank 15, a spray arm 16, a rotating screen tank control valve 17, a rack 18, a rack spray arm control valve 19, an ultrasonic cleaning and disinfection tank 20, an ultrasonic cleaning and disinfection tank infusion control valve 21, an ultrasonic cleaning and disinfection tank drainage control valve 22, an internal circulation fan 23, and a liquid discharge hole 24. The branch pipes of the infusion pipe 25 are connected to the rotating screen tank control valve 17, the rack spray arm control valve 19, and the ultrasonic cleaning and disinfection tank... The infusion control valves 21 are connected in parallel; the functional component compartment 3 is equipped with a power control terminal assembly, including an electrical control box 26, a cleaning agent concentrate tank 27, a disinfectant concentrate tank 28, a real-time concentration detector 29, a circulating filter 30, a circulating spray pump 31, a drain pump 32, and multiple solenoid valves, flow meters, instantaneous heaters, and temperature sensors; the storage compartment 4 is equipped with a cleaning agent storage tank 33, a disinfectant storage tank 34, and their connecting pipes and solenoid valves, used to store and collect the cleaning agent and disinfectant after dilution and spray soaking operations, for recycling or centralized discharge; the components of the refrigeration compartment 1, the cleaning and disinfection compartment 2, the functional component compartment 3, and the storage compartment 4 are connected by pipes and wires, forming the cleaning system, disinfection system, condensation drying system, and real-time detection system of the condensation drying type cleaning and disinfection machine.

[0028] The cleaning system consists of a cleaning agent concentrate dilution branch, a cleaning agent circulation cleaning branch, a clean water rinsing branch for cleaning agent residue, and a cleaning agent waste liquid discharge branch. The disinfection system consists of a disinfectant concentrate dilution branch, a disinfectant circulation disinfection branch, a sterile water rinsing branch for disinfectant residue, and a disinfectant waste liquid discharge branch. Each branch of the cleaning system shares some solenoid valves, flow meters, pumps, and pipelines with each branch of the disinfection system. Each solenoid valve is normally closed, and the opening and closing of each normally closed solenoid valve is controlled by an intelligent control module according to a preset program to achieve each process step. The components and connections of each branch are as follows: The cleaning agent concentrate dilution branch includes a cleaning agent concentrate injection branch and a clean water injection branch. The components and connections of the cleaning agent concentrate injection branch are as follows: the outlet of the cleaning agent concentrate tank 27 is connected to the inlet of the cleaning agent concentrate control valve 35 via a pipe; the outlet of the cleaning agent concentrate control valve 35 is connected to the inlet of the cleaning agent flow meter 36 via a pipe; the outlet of the cleaning agent flow meter 36 is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A37; the outlet of the infusion temperature sensor and the instantaneous heater A37 is connected to the inlet of the one-way valve 38 via a pipe; the outlet of the one-way valve 38 is connected to the inlet of the cleaning agent storage tank control valve 39 via a pipe. The outlet of 39 is connected to the inlet of the cleaning agent storage tank 33 via a pipeline; the components and connection method of the clean water injection branch are as follows: the outlet of the external clean water filter 40 is connected to the inlet of the clean water control valve 41, the outlet of the clean water control valve 41 is connected to the inlet of the clean water flow meter 42 via a pipeline, the outlet of the clean water flow meter 42 is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A37, the outlet of the infusion temperature sensor and the instantaneous heater A37 is connected to the inlet of the one-way valve 38 via a pipeline, the outlet of the one-way valve 38 is connected to the inlet of the cleaning agent storage tank control valve 39 via a pipeline, and the outlet of the cleaning agent storage tank control valve 39 is connected to the inlet of the cleaning agent storage tank 33 via a pipeline.

[0029] The cleaning agent circulation cleaning branch is as follows: the outlet of the cleaning agent storage tank 33 is connected to the inlet of the cleaning agent control valve 43 via a pipe; the outlet of the cleaning agent control valve 43 is connected to the inlet of the circulation filter 30 via a pipe; the outlet of the circulation filter 30 is connected to the inlet of the circulation spray pump 31 via a pipe; the outlet of the circulation spray pump 31 is connected to the inlet of the main spray valve 44 via a pipe; and the outlet of the main spray valve 44 is connected to the inlet of the main spray valve 44 via a pipe. The inlet of the circulating temperature sensor and the instantaneous heater B45 is connected. The outlet of the circulating temperature sensor and the instantaneous heater B45 is connected to the inlet of the infusion tube 25. The outlet of the infusion tube 25 is connected in parallel to the inlet of the rotating mesh drum control valve 17, the inlet of the rack spray arm control valve 19, and the inlet of the ultrasonic cleaning and disinfection tank infusion control valve 21. The outlet of the rotating mesh drum control valve 17 is connected to the inlet of the spray arm 16. The outlet of the spray arm 16 consists of multiple arranged spray nozzles. The spray nozzles are connected to the chamber of the cleaning and disinfection chamber 2, spraying cleaning agent onto the rotating mesh drum 15; the outlet end of the rack spray arm control valve 19 is connected to the inlet end of the spray arm 16, the outlet end of the spray arm 16 has multiple arranged spray nozzles, connected to the chamber of the cleaning and disinfection chamber 2, spraying cleaning agent onto the rack 18; the outlet end of the ultrasonic cleaning and disinfection tank infusion control valve 21 is connected to the inlet end of the ultrasonic cleaning and disinfection tank 20 through a pipeline, and the outlet end of the ultrasonic cleaning and disinfection tank 20... The inlet end of the ultrasonic cleaning and disinfection tank drain control valve 22 is connected to the outlet end of the ultrasonic cleaning and disinfection tank drain control valve 22, which is connected to the chamber of the cleaning and disinfection chamber 2. The bottom of the chamber of the cleaning and disinfection chamber 2 is provided with an inlet of a liquid discharge hole 24. The outlet of the liquid discharge hole 24 is connected to the inlet end of a cleaning agent storage tank control valve 39 through a pipe. The outlet end of the cleaning agent storage tank control valve 39 is connected to the inlet end of a cleaning agent storage tank 33 through a pipe, thereby forming a cleaning agent circulation cleaning branch.

[0030] The residual cleaning agent in the water rinsing branch is as follows: the outlet of the external water filter 40 is connected to the inlet of the water separation control valve 46. The outlet of the water separation control valve 46 is connected to the inlet of the circulating temperature sensor and the instantaneous heater B45 via a pipe. The outlet of the circulating temperature sensor and the instantaneous heater B45 is connected to the inlet of the infusion pipe 25. The outlet of the infusion pipe 25 is connected in parallel to the inlet of the rotating mesh drum control valve 17, the inlet of the rack spray arm control valve 19, and the ultra-high pressure system. The inlet end of the sonic cleaning and disinfection tank infusion control valve 21 and the outlet end of the rotating mesh drum control valve 17 are connected to the inlet end of the spray arm 16. The outlet end of the spray arm 16 has multiple arranged spray holes, which are connected to the chamber of the cleaning and disinfection chamber 2 and spray clean water onto the rotating mesh drum 15. The outlet end of the rack spray arm control valve 19 is connected to the inlet end of the spray arm 16. The outlet end of the spray arm 16 has multiple arranged spray holes, which are connected to the chamber of the cleaning and disinfection chamber 2 and spray clean water. The ultrasonic cleaning and disinfection tank is placed on the rack 18. The outlet of the ultrasonic cleaning and disinfection tank infusion control valve 21 is connected to the inlet of the ultrasonic cleaning and disinfection tank 20 via a pipeline. The outlet of the ultrasonic cleaning and disinfection tank 20 is connected to the inlet of the ultrasonic cleaning and disinfection tank drain control valve 22. The outlet of the ultrasonic cleaning and disinfection tank drain control valve 22 is connected to the chamber of the cleaning and disinfection chamber 2. The bottom of the chamber of the cleaning and disinfection chamber 2 is provided with an inlet of a liquid discharge hole 24. The outlet of the liquid discharge hole 24 is connected to the inlet of a flushing discharge valve 47 via a pipeline. The outlet of the flushing discharge valve 47 is connected to the inlet of a circulating filter 30 and a drain pump 32 via a pipeline. The outlet of the circulating filter 30 is connected to the inlet of a circulating spray pump 31 via a pipeline. The outlet of the circulating spray pump 31 is connected to the inlet of a spray main valve 44 via a pipeline. The outlet of the drain pump 32 is connected to the inlet of a drain control valve 48 via a pipeline. The outlet of the drain control valve 48 is connected to an external drainage network via a pipeline.

[0031] The waste liquid discharge branch of the cleaning agent is as follows: the outlet of the cleaning agent storage tank 33 is connected to the inlet of the cleaning agent control valve 43 through a pipe; the outlet of the cleaning agent control valve 43 is connected to the inlet of the drain pump 32 through a pipe; the outlet of the drain pump 32 is connected to the inlet of the drain control valve 48 through a pipe; and the outlet of the drain control valve 48 is connected to the external drainage network through a pipe.

[0032] The disinfectant concentrate dilution branch includes a disinfectant concentrate injection branch and a clean water injection branch. The components and connections of the disinfectant concentrate injection branch are as follows: the outlet of the disinfectant concentrate tank 28 is connected to the inlet of the disinfectant concentrate control valve 49 via a pipe; the outlet of the disinfectant concentrate control valve 49 is connected to the inlet of the disinfectant flow meter 50 via a pipe; the outlet of the disinfectant flow meter 50 is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A37; the outlet of the infusion temperature sensor and the instantaneous heater A37 is connected to the inlet of the one-way valve 38 via a pipe; the outlet of the one-way valve 38 is connected to the inlet of the disinfectant storage tank control valve 51 via a pipe. The outlet of 51 is connected to the inlet of the disinfectant storage tank 34 via a pipeline; the components and connection method of the clean water injection branch are as follows: the outlet of the external clean water filter 40 is connected to the inlet of the clean water control valve 41, the outlet of the clean water control valve 41 is connected to the inlet of the clean water flow meter 42 via a pipeline, the outlet of the clean water flow meter 42 is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A37, the outlet of the infusion temperature sensor and the instantaneous heater A37 is connected to the inlet of the one-way valve 38 via a pipeline, the outlet of the one-way valve 38 is connected to the inlet of the disinfectant storage tank control valve 51 via a pipeline, and the outlet of the disinfectant storage tank control valve 51 is connected to the inlet of the disinfectant storage tank 34 via a pipeline.

[0033] The disinfectant circulation disinfection branch circuit consists of the following components and connections: the outlet of the disinfectant storage tank 34 is connected to the inlet of the disinfectant control valve 52 via a pipe; the outlet of the disinfectant control valve 52 is connected to the inlet of the circulation filter 30 via a pipe; the outlet of the circulation filter 30 is connected to the inlet of the circulation spray pump 31 via a pipe; the outlet of the circulation spray pump 31 is connected to the inlet of the main spray valve 44 via a pipe; and the outlet of the main spray valve 44 is connected to the inlet of the main spray valve 44 via a pipe. The inlet of the circulating temperature sensor and the instantaneous heater B45 is connected. The outlet of the circulating temperature sensor and the instantaneous heater B45 is connected to the inlet of the infusion tube 25. The outlet of the infusion tube 25 is connected in parallel to the inlet of the rotating mesh drum control valve 17, the inlet of the rack spray arm control valve 19, and the inlet of the ultrasonic cleaning and disinfection tank infusion control valve 21. The outlet of the rotating mesh drum control valve 17 is connected to the inlet of the spray arm 16. The outlet of the spray arm 16 consists of multiple arranged spray nozzles. The spray nozzles are connected to the chamber of the cleaning and disinfection chamber 2, spraying disinfectant onto the rotating mesh drum 15; the outlet end of the rack spray arm control valve 19 is connected to the inlet end of the spray arm 16, the outlet end of the spray arm 16 has multiple arranged spray nozzles, connected to the chamber of the cleaning and disinfection chamber 2, spraying disinfectant onto the rack 18; the outlet end of the ultrasonic cleaning and disinfection tank infusion control valve 21 is connected to the inlet end of the ultrasonic cleaning and disinfection tank 20 through a pipeline, and the outlet end of the ultrasonic cleaning and disinfection tank 20... The inlet end of the ultrasonic cleaning and disinfection tank drain control valve 22 is connected to the outlet end of the ultrasonic cleaning and disinfection tank drain control valve 22, which is connected to the chamber of the cleaning and disinfection chamber 2. The bottom of the chamber of the cleaning and disinfection chamber 2 is provided with an inlet of a liquid discharge hole 24. The outlet of the liquid discharge hole 24 is connected to the inlet end of a disinfectant storage tank control valve 51 through a pipe. The outlet end of the disinfectant storage tank control valve 51 is connected to the inlet end of a disinfectant storage tank 34 through a pipe, thereby forming a disinfectant circulation cleaning branch.

[0034] The sterile water rinsing disinfectant residue branch: the outlet end of the external sterile water pipe 53 is connected to the inlet end of the sterile water control valve 54. The outlet end of the sterile water control valve 54 is connected to the inlet end of the circulating temperature sensor and the instantaneous heater B45 through a pipe. The outlet end of the circulating temperature sensor and the instantaneous heater B45 is connected to the inlet end of the infusion pipe 25. The outlet end of the infusion pipe 25 is connected in parallel to the inlet end of the rotating mesh drum control valve 17, the inlet end of the rack spray arm control valve 19, and the ultrasonic... The inlet end of the infusion control valve 21 of the cleaning and disinfection tank is connected to the inlet end of the spray arm 16, and the outlet end of the rotating mesh drum control valve 17 is connected to the inlet end of the spray arm 16. The outlet end of the spray arm 16 has multiple arranged spray holes, which are connected to the chamber of the cleaning and disinfection chamber 2, and spray sterile water onto the rotating mesh drum 15. The outlet end of the rack spray arm control valve 19 is connected to the inlet end of the spray arm 16, and the outlet end of the spray arm 16 has multiple arranged spray holes, which are connected to the chamber of the cleaning and disinfection chamber 2, and spray sterile water onto the rack. The ultrasonic cleaning and disinfection tank is placed on the rack 18. The outlet of the ultrasonic cleaning and disinfection tank infusion control valve 21 is connected to the inlet of the ultrasonic cleaning and disinfection tank 20 via a pipeline. The outlet of the ultrasonic cleaning and disinfection tank 20 is connected to the inlet of the ultrasonic cleaning and disinfection tank drain control valve 22. The outlet of the ultrasonic cleaning and disinfection tank drain control valve 22 is connected to the chamber of the cleaning and disinfection chamber 2. The bottom of the chamber of the cleaning and disinfection chamber 2 is provided with an inlet of a liquid discharge hole 24. The outlet of the liquid discharge hole 24 is connected to the inlet of a flushing discharge valve 47 via a pipeline. The outlet of the flushing discharge valve 47 is connected to the inlet of a circulating filter 30 and a drain pump 32 via a pipeline. The outlet of the circulating filter 30 is connected to the inlet of a circulating spray pump 31 via a pipeline. The outlet of the circulating spray pump 31 is connected to the inlet of a spray main valve 44 via a pipeline. The outlet of the drain pump 32 is connected to the inlet of a drain control valve 48 via a pipeline. The outlet of the drain control valve 48 is connected to an external drainage network via a pipeline.

[0035] The disinfectant waste liquid discharge branch is as follows: the components and connection method of the branch are as follows: the outlet of the disinfectant storage tank 34 is connected to the inlet of the disinfectant control valve 52 through a pipe; the outlet of the disinfectant control valve 52 is connected to the inlet of the drain pump 32 through a pipe; the outlet of the drain pump 32 is connected to the inlet of the drain control valve 48 through a pipe; and the outlet of the drain control valve 48 is connected to the external drainage network through a pipe.

[0036] The components and connections of the real-time detection system are as follows: the electrical control box 26 is connected to the touch screen 8, the real-time concentration detector 29, the infusion temperature sensor and instantaneous heater A37, the circulation temperature sensor and instantaneous heater B45, and the temperature and humidity sensor 59 via wires. It detects the cleaning agent, disinfectant, clean water, sterile water, and the temperature, humidity, and concentration values ​​inside the chamber of the condensation drying cleaning and disinfection machine in real time, and adjusts the opening and closing of the infusion temperature sensor and instantaneous heater A37, the circulation temperature sensor and instantaneous heater B45, the cleaning agent concentrate control valve 35, the cleaning agent flow meter 36, the disinfectant concentrate control valve 49, the disinfectant flow meter 50, the internal condenser control valve 55, and the external condenser control valve 56 in real time according to the system's set threshold.

[0037] Based on the above technical solution, and according to the operation sequence and the pipeline flow paths of cleaning agent concentrate, cleaning agent, clean water, disinfectant concentrate, disinfectant, and sterile water, the operation process of this utility model condensation drying cleaning and disinfection machine is described as follows: Start-up: Confirm that the electrical control box 26 is connected to the external power supply, the external source clean water filter 40 and the sterile water pipe 53 are connected to the water source, and the cleaning agent concentrate tank 27 and the disinfectant concentrate tank 28 have been filled with concentrate. Then start the system, and the system will automatically run the equipment self-check and moist heat self-cleaning disinfection program. The moist heat self-cleaning disinfection program is that, under no-load conditions, the system control module activates the relevant components to instantly heat the input sterile water or clean water to 90-92℃, and uses this to spray and rinse the disinfection chamber 2, the circulation pipes and the storage tank for 1-2 minutes or until A0 reaches 600. Then the rinsing hot water is drained to achieve self-cleaning disinfection.

[0038] Loading Instruments: After the system's self-check and self-cleaning program is completed, it enters standby mode. The operator can then use the touch screen 8 to open the viewing cabinet door 7 and place the medical devices to be cleaned and disinfected in the rotating mesh drum 15, the rack 18, or the ultrasonic cleaning and disinfection tank 20 according to their different characteristics. Then, the disinfection level is selected, and the operator determines whether to perform medium-level or high-level disinfection. The system defaults to performing uniform standard cleaning and disinfection operations in all compartments of the cleaning and disinfection chamber. If there are differences, intelligent cleaning and disinfection can be selected or the operation can be started manually through the touch screen 8.

[0039] Cleaning agent concentrate dilution: The control module of the electrical control box 26 simultaneously opens the cleaning agent concentrate control valve 35 and the cleaning agent concentrate flow meter 36. Under the action of gravitational potential energy, the cleaning agent concentrate flows out from the cleaning agent concentrate tank 27, and flows along the pipeline successively through the cleaning agent concentrate control valve 35, the cleaning agent concentrate flow meter 36, the infusion temperature sensor and instantaneous heater A37, the one-way valve 38, and the cleaning agent storage tank control valve 39 into the cleaning agent storage tank 33; after the cleaning agent concentrate flow rate reaches the system set threshold, cleaning... The cleaning agent concentrate control valve 35 and the cleaning agent concentrate flow meter 36 are immediately closed; at the same time, the system opens the clean water control valve 41 and the clean water flow meter 42, and the external clean water enters the cleaning agent storage tank 33 through the pipeline in sequence via the clean water control valve 41, the clean water flow meter 42, the infusion temperature sensor and instantaneous heater A37, the one-way valve 38, and the cleaning agent storage tank control valve 39; after the input clean water flow reaches the system set threshold, the clean water control valve 41 and the clean water flow meter 42 are closed at the same time, completing the cleaning agent concentrate dilution operation.

[0040] Cleaning agent circulation cleaning: The control module of the electrical control box 26 simultaneously activates the cleaning agent control valve 43, the circulating spray pump 31, the main spray valve 44, the rotating screen control valve 17, the rack spray arm control valve 19, the ultrasonic cleaning and disinfection tank infusion control valve 21, and the cleaning agent storage tank control valve 39. The cleaning agent in the cleaning agent storage tank 33 is drawn from the lower outlet of the cleaning agent storage tank 33 and flows successively through the circulating filter 30, the circulating spray pump 31, the main spray valve 44, the circulating temperature sensor and instantaneous heater B45, the infusion pipe 25, the rotating screen control valve 17, the rack spray arm control valve 19, and the spray arm 16, spraying the cleaning agent onto the... On the rotating mesh drum 15 and the rack 18, the sprayed cleaning agent naturally flows into the inlet of the liquid discharge hole 24; or, through the ultrasonic cleaning and disinfection tank inlet control valve 21, the cleaning agent is introduced into the ultrasonic cleaning and disinfection tank 20. After the soaking cleaning operation is completed, the system opens the ultrasonic cleaning and disinfection tank drain control valve 22, and the cleaning agent flows out from the ultrasonic cleaning and disinfection tank 20, naturally flowing into the inlet of the liquid discharge hole 24, and then flows along the pipeline through the cleaning agent storage tank control valve 39 into the cleaning agent storage tank 33, completing the first cycle cleaning; thereafter, the above operation process is repeated multiple times according to the system settings to complete the cleaning agent cycle cleaning operation.

[0041] Clean water rinsing to remove cleaning agent residue: After the cleaning agent circulation cleaning is completed, the system simultaneously opens the clean water diversion control valve 46, the rotating screen barrel control valve 17, the rack spray arm control valve 19, the ultrasonic cleaning and disinfection tank infusion control valve 21, the ultrasonic cleaning and disinfection tank drain control valve 22, the rinsing and discharge valve 47, the drain pump 32, and the drain control valve 48. The clean water in the external clean water filter 40 then flows sequentially through the clean water diversion control valve 46, the circulating temperature sensor and instantaneous heater B45, the infusion pipe 25, the rotating screen barrel control valve 17, the rack spray arm control valve 19, and the spray arm 16, spraying the clean water onto the rotating screen barrel 15 and the rack 18; or through the ultrasonic cleaning and disinfection tank infusion control valve 21, clean water is input into the ultrasonic cleaning and disinfection tank. In tank 20, the sprayed clean water naturally flows into the inlet of the liquid discharge hole 24. After rinsing, the system opens the ultrasonic cleaning and disinfection tank drain control valve 22, and the clean water containing cleaning agent flows out of the ultrasonic cleaning and disinfection tank 20 and naturally flows into the inlet of the liquid discharge hole 24. Then, part of it rinses the pipe residue and flows along the pipe through the flushing drain valve 47, the circulating filter 30, the circulating spray pump 31, and the spray main valve 44 into the infusion pipe 25 to participate in the circulating cleaning. Part of it enters the external drainage network through the flushing drain valve 47, the drain pump 32, and the drain control valve 48. When the concentration of the clean water discharge residue reaches the system set threshold, the clean water rinsing of the cleaning agent residue is completed.

[0042] Waste cleaning agent discharge: After the cleaning agent has been reused a certain number of times or its concentration has fallen below the system's set threshold, the system simultaneously activates the cleaning agent control valve 43, the drain pump 32, and the drain control valve 48. The waste cleaning agent in the cleaning agent storage tank 33 is discharged outside the machine through the cleaning agent control valve 43, the drain pump 32, and the drain control valve 48, and enters the external drainage network, thus completing the waste cleaning agent discharge operation.

[0043] Disinfectant concentrate dilution: The control module of the electrical control box 26 simultaneously opens the disinfectant concentrate control valve 49, the disinfectant flow meter 50, and the disinfectant storage tank control valve 51. Under the action of gravitational potential energy, the disinfectant concentrate flows out from the disinfectant concentrate tank 28, and flows along the pipeline successively through the disinfectant concentrate control valve 49, the disinfectant flow meter 50, the infusion temperature sensor and instantaneous heater A37, the one-way valve 38, and the disinfectant storage tank control valve 51 into the disinfectant storage tank 34; wait for the disinfectant concentrate to flow... Once the volume reaches the system's set threshold, the disinfectant concentrate control valve 49 and disinfectant flow meter 50 immediately close. Simultaneously, the system opens the clean water control valve 41 and clean water flow meter 42, allowing external clean water to flow along the pipeline through the infusion temperature sensor and instantaneous heater A37, check valve 38, and disinfectant storage tank control valve 51 into the disinfectant storage tank 34. After the input clean water flow reaches the system's set threshold, the clean water control valve 41 and clean water flow meter 42 simultaneously close, completing the disinfectant concentrate dilution operation.

[0044] Disinfectant circulation disinfection: The control module of the electrical control box 26 simultaneously activates the disinfectant control valve 52, the circulating spray pump 31, the main spray valve 44, the rotating screen barrel control valve 17, the rack spray arm control valve 19, the ultrasonic cleaning and disinfection tank infusion control valve 21, and the disinfectant storage tank control valve 51. The disinfectant in the disinfectant storage tank 34 is then drawn in from the lower outlet and flows successively through the circulating filter 30, the circulating spray pump 31, the main spray valve 44, the circulating temperature sensor and instantaneous heater B45, the infusion pipe 25, the rotating screen barrel control valve 17, the rack spray arm control valve 19, and the spray arm 16, spraying the disinfectant onto the rotating screen. On the bucket 15 and the rack 18, the sprayed disinfectant naturally flows into the inlet of the liquid discharge hole 24; or, through the ultrasonic cleaning and disinfection tank infusion control valve 21, the disinfectant is introduced into the ultrasonic cleaning and disinfection tank 20. After the soaking disinfection operation is completed, the system opens the ultrasonic cleaning and disinfection tank drain control valve 22, and the disinfectant flows out from the ultrasonic cleaning and disinfection tank 20, naturally flowing into the inlet of the liquid discharge hole 24, and then flows along the pipeline through the disinfectant storage tank control valve 51 into the disinfectant storage tank 34, completing the first cycle disinfection; thereafter, the above operation process is repeated multiple times according to the system settings to complete the cycle disinfection operation.

[0045] Sterile water rinsing to remove disinfectant residue: After disinfectant circulation disinfection is completed, the system simultaneously opens the sterile water control valve 54, the rotating screen tank control valve 17, the rack spray arm control valve 19, the ultrasonic cleaning and disinfection tank infusion control valve 21, the ultrasonic cleaning and disinfection tank drain control valve 22, the rinsing and discharge valve 47, the drain pump 32, and the drain control valve 48. Sterile water from the external sterile water pipe 53 then flows sequentially through the circulating temperature sensor and instantaneous heater B45, the infusion pipe 25, the rotating screen tank control valve 17, the rack spray arm control valve 19, and the spray arm 16, spraying sterile water onto the rotating screen tank 15 and the rack 18; or, via the ultrasonic cleaning and disinfection tank infusion control valve 21, sterile water is input into the ultrasonic cleaning and disinfection tank 20; spraying... The sterile water naturally flows into the inlet of the liquid discharge hole 24; after the sterile water in the ultrasonic cleaning and disinfection tank 20 completes the soaking and final rinsing operation, the system opens the ultrasonic cleaning and disinfection tank drain control valve 22, and the sterile water containing disinfectant flows out from the ultrasonic cleaning and disinfection tank 20, and also naturally flows into the inlet of the liquid discharge hole 24. Then, part of it rinses the pipe residue, flows along the pipe through the rinsing drain valve 47, the circulating filter 30, the circulating spray pump 31, and the spray main valve 44 into the infusion pipe 25 to participate in the circulating cleaning, and part of it enters the external drainage network through the rinsing drain valve 47, the drain pump 32, and the drain control valve 48; when the concentration of the sterile water discharge residue reaches the system set threshold, the sterile water rinsing of disinfectant residue is completed.

[0046] Disinfectant waste liquid discharge: After the disinfectant has been reused a certain number of times or its concentration has fallen below the system's set threshold, the system simultaneously activates the disinfectant control valve 52, the drain pump 32, and the drain control valve 48. The disinfectant waste liquid in the disinfectant storage tank 34 is discharged outside the machine through the disinfectant control valve 52, the drain pump 32, and the drain control valve 48, and enters the external drainage network, thus completing the disinfectant waste liquid discharge operation.

[0047] Figure 3A schematic diagram of the condensation drying system is shown, illustrating the components and their connections. Specifically, the output of the refrigeration compressor 5 located in the refrigeration chamber 1 is connected in parallel to the inlet of the inner condenser control valve 55 and the outer condenser control valve 56 via refrigerant pipes. The outlet of the inner condenser control valve 55 is connected to the inlet of the inner condenser 14, and the outlet of the outer condenser control valve 56 is connected to the inlet of the outer condenser 6. The outlets of the outer condenser 6 and the inner condenser 14 are connected to the inlet of the dryer filter 57 via refrigerant pipes. The outlet of the dryer filter 57 is connected to the inlet of the left and right capillary tubes 58 in the cleaning and disinfection chamber 2 via refrigerant pipes. The outlet of the capillary tubes 58 is connected to the inlet of the evaporator 13, and the outlet of the evaporator 13 is connected to the input of the refrigeration compressor 5 via refrigerant pipes. The cleaning and disinfection chamber 2 is equipped with a temperature and humidity sensor 59. The operating procedure is as follows: After the sterile water rinsing and disinfectant residue removal is completed, the system immediately starts the refrigeration compressor 5, the internal condenser control valve 55, and the internal circulation fan 23 to begin condensing and drying the sterile air in the cleaning and disinfection chamber 2. As the surface temperature of the evaporator 13 decreases, the sterile air in the cleaning and disinfection chamber 2, under the blowing of the internal circulation fan 23, continuously comes into contact with the surface of the evaporator 13, which is around 0-10℃. The water vapor in the air condenses into water droplets due to the cooling and adheres to the surface of the evaporator 13, and then collects and flows into the liquid discharge hole 24 to be discharged outside the machine. During this period, in order to improve the evaporation efficiency, the air temperature in the cleaning and disinfection chamber 2 is maintained at 30-45℃. The corresponding heat comes from the residual heat during the cleaning and disinfection operation, as well as the heat generated by the internal condenser 14 and the internal circulation fan 23. When the chamber temperature exceeds 45℃, affecting the evaporation efficiency, the system will not evaporate the air. When the condensing efficiency of the generator 13 is reached, the system automatically closes the inner condenser control valve 55 and opens the outer condenser control valve 56, thereby starting the outer condenser 6 for cooling. Then, the temperature inside the cleaning and disinfection chamber 2 gradually decreases. When the temperature drops to 30°C, the evaporation efficiency of water adhering to the items inside the chamber is also relatively low. At this time, the system opens the inner condenser control valve 55 again and closes the outer condenser control valve 56, thereby starting the inner condenser 14 for cooling. Correspondingly, the temperature inside the cleaning and disinfection chamber 2 gradually rises. When the temperature rises to 45°C, the inner condenser 14 is closed again and the outer condenser 6 is started. This cycle repeats until the system-set condensation and drying time or the humidity inside the cleaning and disinfection chamber 2 reaches the system threshold. Then, the system shuts down the refrigeration compressor 5 and the internal circulation fan 23, completing the internal circulation condensation and drying operation of the sterile air inside the chamber.

[0048] Figure 4A schematic cross-sectional view of the upper window of the cleaning and disinfection chamber along the horizontal centerline shows the spatial relationship between the evaporator 13 and the inner condenser 14 inside the cleaning and disinfection chamber 2. Both have a foamed insulation layer 60 on their outer side, isolating them from external heat conduction. Their inner side, facing the interior of the chamber, has a corrosion-resistant stainless steel inner liner 61, which prevents corrosion from the disinfectant while allowing for good heat exchange with the air inside the chamber. The surface of the stainless steel inner liner 61 near the evaporator 13 is kept at a low temperature; a recommended surface temperature control is 0-10℃. Condensation occurs upon contact with the water-containing air inside the chamber. The condensate flows downward along the stainless steel inner liner 61 under gravity and into the liquid discharge hole 24. Once the water volume reaches the system threshold, the flushing discharge valve 47, the drain pump 32, and the drain control valve 48 are activated for centralized external discharge. The surface of the stainless steel inner liner 61 adjacent to the internal condenser 14 is heated, which can heat the air inside the cabin. The recommended surface control temperature is 30-45℃ to improve the evaporation efficiency of water adsorbed on the surface of items inside the cabin. This allows the cooling energy consumption to be used to heat the air inside the cabin at the same time, avoiding the additional electricity consumption for heating the air inside the cabin, which is in line with the concept and requirements of environmental protection and energy conservation.

[0049] Figure 5The schematic diagram of the functional component compartment is a schematic diagram of one embodiment of the internal structure of the functional component compartment 3. The front wall panel of the functional component compartment 3 is equipped with a touch screen 8, a printer 9, a card reader 10, and indicator lights 11. The right side is equipped with a door lock 12. The compartment is divided into upper and lower layers by a partition. The upper layer is equipped with an electrical control box 26, a cleaning agent concentrate tank 27, and a disinfectant concentrate tank 28. The lower layer is equipped with solenoid valves, flow meters, liquid pumps, filters 30, a real-time concentration detector 29, and their connecting pipes that make up the cleaning and disinfection system. The connection relationship of each component is as follows: the bottom outlet of the cleaning agent concentrate tank 27 is connected to the inlet of the cleaning agent concentrate control valve 35 through a pipe. The outlet of the cleaning agent concentrate control valve 35 is connected to the inlet of the cleaning agent flow meter 36 via a pipe. The outlet of the cleaning agent flow meter 36 is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A37 via a pipe. The outlet of the infusion temperature sensor and the instantaneous heater A37 is connected to the inlet of the cleaning agent storage tank 33 via a pipe passing through the tank wall. The bottom outlet of the disinfectant concentrate tank 28 is connected to the inlet of the disinfectant concentrate control valve 49 via a pipe. The outlet of the disinfectant concentrate control valve 49 is connected in parallel to the inlet of the disinfectant flow meter 50 via a pipe. The outlet of the disinfectant flow meter 50 is connected in parallel to the infusion temperature sensor and the instantaneous heater A37. The inlet of the temperature sensor and instantaneous heater A37 is connected to the outlet of the infusion temperature sensor and instantaneous heater A37 via a pipe passing through the bulkhead and connected to the inlet of the disinfectant storage tank 34; the outlet of the external source water filter 40 is connected to the inlet of the water control valve 41, the outlet of the water control valve 41 is connected to the inlet of the water flow meter 42 via a pipe, the outlet of the water flow meter 42 is connected in parallel to the inlet of the infusion temperature sensor and instantaneous heater A37, and the outlet of the infusion temperature sensor and instantaneous heater A37 is connected to the inlet of the cleaning agent storage tank 33 or the inlet of the disinfectant storage tank 34 via a pipe passing through the bulkhead; the concentration... The inlet of the time detector 29 is connected to the infusion pipe 25 through a pipe; the inlet of the circulating spray pump 31 is connected to the outlet of the circulating filter 30 through a pipe; the outlet of the circulating spray pump 31 is connected to the inlet of the spray main valve 44 through a pipe; the outlet of the spray main valve 44 is connected to the inlet of the circulating temperature sensor and the instantaneous heater B45 through a pipe; the outlet of the circulating temperature sensor and the instantaneous heater B45 is connected to the infusion pipe 25 as a whole, passes upward through the chamber wall and enters the cleaning and disinfection chamber 2, and is connected in parallel with the inlet of the rotating mesh barrel control valve 17, the rack spray arm control valve 19, and the ultrasonic cleaning and disinfection tank infusion control valve 21;An external sterile water pipe 53 is connected to the inlet of a sterile water control valve 54 via a pipeline. The outlet of the sterile water control valve 54 is connected to the inlet of a circulating temperature sensor and an instantaneous heater B45 via a pipeline. The outlet of the circulating temperature sensor and the instantaneous heater B45 is integrated with an infusion pipe 25, which passes upward through the chamber wall into the cleaning and disinfection chamber 2 and is connected in parallel to the inlet of the rotating mesh tank control valve 17, the rack spray arm control valve 19, and the ultrasonic cleaning and disinfection tank infusion control valve 21. The inlet of the drain pipe 62 is connected in parallel to the outlet of the cleaning agent control valve 43, the flushing discharge valve 47, and the disinfectant control valve 52. The outlet of the drain pipe 62 is connected to the drain pump 32 via a pipeline. The outlet of the drain pump 32 is connected to the inlet of the drain control valve 48 via a pipe, and the outlet of the drain control valve 48 is connected to the external drainage network via a pipe. The electrical control box 26 is connected to various electrical control components of the condensation drying type cleaning and disinfection machine via wires, including the refrigeration compressor 5, touch screen 8, printer 9, card reader 10, indicator light 11, rotating screen 15, ultrasonic cleaning and disinfection tank 20, real-time concentration detector 29, infusion temperature sensor and instantaneous heater A37, circulation temperature sensor and instantaneous heater B45, temperature and humidity sensor 59, and various solenoid valves, flow meters, and pumps. Through its intelligent module's preset program, it controls the automatic execution of each operation process.

[0050] Figure 6 A schematic diagram of the rotating mesh tank 15 shows that it is made of stainless steel mesh, with a small opening and a large bottom, forming a hollow cylindrical shape. The cleaning agent, disinfectant, clean water, and sterile water sprayed by the spray arm 16 can be sprayed onto the medical devices contained within, while simultaneously flowing out of the rotating mesh tank 15 through the perforated mesh. The bottom plane of the rotating mesh tank 15 is parallel to the interior wall panel 63 of the cleaning and disinfection chamber 2. A direct drive motor 64 is mounted on the back of the corresponding interior wall panel 63 of the cleaning and disinfection chamber 2, and the shaft of the direct drive motor 64 passes through the interior wall panel 63 of the cleaning and disinfection chamber 2. The wall panel 63 is fixedly connected to the bottom center of the rotating mesh drum 15; the opening of the rotating mesh drum 15 faces the cabinet door of the cleaning and disinfection chamber 2, which allows for easy addition or removal of medical devices to be cleaned and disinfected; it is mainly suitable for cleaning and disinfecting pluggable and absorbent medical devices; during the cleaning, disinfection and rinsing operations, the rotating mesh drum 15 rotates at a low speed, and at the end of each of the above operations, the rotating mesh drum 15 rotates at a high speed for a short time; during the condensation and drying period, the rotating mesh drum 15 rotates at a low speed until the drying operation is completed and then stops rotating.

[0051] The above description of embodiments in this specification indicates that specific features, structures, materials, or characteristics of this utility model are included in at least one embodiment of this utility model. Furthermore, the described specific features and structures can be combined in any suitable manner in one or more embodiments, including the vertical and horizontal spatial combinations of the functional component compartment and the cleaning and disinfection compartment. In addition, the other material types, specifications, dimensions, positions, quantities, etc., given in the embodiments can be reasonably adjusted according to different application scenarios. This includes the combination or omission of the ultrasonic cleaning and disinfection tank, layered racks, and rotating mesh tub within the cleaning and disinfection compartment. These are all non-inventive variations and are entirely within the scope of this utility model overview and the corresponding patent protection.

Claims

1. A condensation drying type cleaning and disinfection machine, with a cabinet-style single-door structure, characterized in that: The condensing drying type cleaning and disinfection machine consists of a refrigeration chamber (1), a cleaning and disinfection chamber (2), a functional component chamber (3), and a liquid storage chamber (4). The refrigeration chamber (1) is equipped with a refrigeration compressor (5) and an external condenser (6). The cleaning and disinfection chamber (2) is equipped with an evaporator (13), an internal condenser (14), a rotating screen (15), a spray arm (16), a rack (18), an ultrasonic cleaning and disinfection tank (20), and an internal circulation fan (23). It is divided into multiple compartments by the longitudinal and transverse beams on the exterior of the cabinet, and each compartment is equipped with a viewing window cabinet door (7). The functional component chamber (3) is equipped with a touch screen (8), a printer (9), a card reader (10), and a fingerprint sensor. Indicator light (11), door lock (12), electrical control box (26), cleaning agent concentrate tank (27), disinfectant concentrate tank (28), real-time concentration detector (29), circulating filter (30), circulating spray pump (31), drain pump (32) and corresponding solenoid valves and flow meters; the liquid storage tank (4) is equipped with a cleaning agent storage tank (33) and a disinfectant storage tank (34); the components of the refrigeration chamber (1), cleaning and disinfection chamber (2), functional component chamber (3) and liquid storage tank (4) are connected by pipes and wires to form the cleaning system, disinfection system, condensation drying system and real-time detection system of the condensation drying type cleaning and disinfection machine; The cleaning system consists of a cleaning agent concentrate dilution branch, a cleaning agent circulation cleaning branch, a cleaning water rinsing branch for cleaning agent residue, and a cleaning agent waste liquid discharge branch. The components and connections of each branch are as follows: The cleaning agent concentrate dilution branch: This branch includes a cleaning agent concentrate injection branch and a clean water injection branch. The components and connection method of the cleaning agent concentrate injection branch are as follows: the outlet of the cleaning agent concentrate tank (27) is connected to the inlet of the cleaning agent concentrate control valve (35) through a pipe. The outlet of the cleaning agent concentrate control valve (35) is connected to the inlet of the cleaning agent flow meter (36) through a pipe. The outlet of the cleaning agent flow meter (36) is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A (37). The outlet of the infusion temperature sensor and the instantaneous heater A (37) is connected to the inlet of the one-way valve (38) through a pipe. The outlet of the one-way valve (38) is connected to the inlet of the cleaning agent storage tank control valve (39) through a pipe. The cleaning agent storage tank control valve (39) The outlet end is connected to the inlet end of the cleaning agent storage tank (33) through a pipeline; the components and connection method of the clean water injection branch are as follows: the outlet end of the external source clean water filter (40) is connected to the inlet end of the clean water control valve (41), the outlet end of the clean water control valve (41) is connected to the inlet end of the clean water flow meter (42) through a pipeline, the outlet end of the clean water flow meter (42) is connected in parallel to the inlet end of the infusion temperature sensor and the instantaneous heater A (37), the outlet end of the infusion temperature sensor and the instantaneous heater A (37) is connected to the inlet end of the one-way valve (38) through a pipeline, the outlet end of the one-way valve (38) is connected to the inlet end of the cleaning agent storage tank control valve (39) through a pipeline, and the outlet end of the cleaning agent storage tank control valve (39) is connected to the inlet end of the cleaning agent storage tank (33) through a pipeline; The cleaning agent circulation cleaning branch: The components and connection method of this branch are as follows: The outlet of the cleaning agent storage tank (33) is connected to the inlet of the cleaning agent control valve (43) through a pipeline; the outlet of the cleaning agent control valve (43) is connected to the inlet of the circulation filter (30) through a pipeline; the outlet of the circulation filter (30) is connected to the inlet of the circulation spray pump (31) through a pipeline; the outlet of the circulation spray pump (31) is connected to the inlet of the main spray valve (44) through a pipeline; and the outlet of the main spray valve (44) is connected to... The inlet of the circulating temperature sensor and instantaneous heater B (45) is connected to the outlet of the circulating temperature sensor and instantaneous heater B (45), which is connected to the inlet of the infusion pipe (25). The outlet of the infusion pipe (25) is connected in parallel to the inlet of the rotating mesh drum control valve (17), the inlet of the rack spray arm control valve (19), and the inlet of the ultrasonic cleaning and disinfection tank infusion control valve (21). The outlet of the rotating mesh drum control valve (17) is connected to the inlet of the spray arm (16), and the outlet of the spray arm (16) consists of multiple arranged spray nozzles. The hole is connected to the cleaning and disinfection chamber (2) and sprays the cleaning agent onto the rotating mesh drum (15); the outlet end of the rack spray arm control valve (19) is connected to the inlet end of the spray arm (16), the outlet end of the spray arm (16) has multiple spray holes arranged in a row, which are connected to the cleaning and disinfection chamber (2) and spray the cleaning agent onto the rack (18); the outlet end of the ultrasonic cleaning and disinfection tank infusion control valve (21) is connected to the inlet end of the ultrasonic cleaning and disinfection tank (20) through a pipeline, and the outlet end of the ultrasonic cleaning and disinfection tank (20) is connected to the inlet end of the ultrasonic cleaning and disinfection tank (20). The inlet end of the ultrasonic cleaning and disinfection tank drain control valve (22) is connected to the outlet end of the ultrasonic cleaning and disinfection tank drain control valve (22), which is connected to the cleaning and disinfection chamber (2). The bottom of the cleaning and disinfection chamber (2) is provided with a liquid discharge hole (24) inlet. The outlet of the liquid discharge hole (24) is connected to the inlet end of the cleaning agent storage tank control valve (39) through a pipe. The outlet end of the cleaning agent storage tank control valve (39) is connected to the inlet end of the cleaning agent storage tank (33) through a pipe, thereby forming a cleaning agent circulation cleaning branch. The residual cleaning agent in the water rinsing branch is as follows: the outlet of the external water filter (40) is connected to the inlet of the water separation control valve (46). The outlet of the water separation control valve (46) is connected to the inlet of the circulating temperature sensor and the instantaneous heater B (45) through a pipeline. The outlet of the circulating temperature sensor and the instantaneous heater B (45) is connected to the inlet of the infusion pipe (25). The outlet of the infusion pipe (25) is connected in parallel to the inlet of the rotating mesh drum control valve (17), the inlet of the rack spray arm control valve (19), and the ultrasonic... The inlet end of the infusion control valve (21) of the cleaning and disinfection tank is connected to the inlet end of the spray arm (16), and the outlet end of the rotating mesh bucket control valve (17) is connected to the inlet end of the spray arm (16). The outlet end of the spray arm (16) has multiple spray holes arranged in a row, which are connected to the cleaning and disinfection chamber (2) and spray clean water onto the rotating mesh bucket (15). The outlet end of the spray arm control valve (19) of the shelf is connected to the inlet end of the spray arm (16). The outlet end of the spray arm (16) has multiple spray holes arranged in a row, which are connected to the cleaning and disinfection chamber (2) and spray clean water onto the shelf. (18) Above; the outlet end of the ultrasonic cleaning and disinfection tank infusion control valve (21) is connected to the inlet end of the ultrasonic cleaning and disinfection tank (20) through a pipeline, the outlet end of the ultrasonic cleaning and disinfection tank (20) is connected to the inlet end of the ultrasonic cleaning and disinfection tank drain control valve (22), and the outlet end of the ultrasonic cleaning and disinfection tank drain control valve (22) is connected to the cleaning and disinfection chamber (2); the bottom of the cleaning and disinfection chamber (2) is provided with a liquid discharge hole (24) inlet, and the outlet of the liquid discharge hole (24) is connected to the flushing drain through a pipeline. The inlet end of the flushing discharge valve (47) is connected to the inlet end of the circulating filter (30) and the drain pump (32) through a pipeline. The outlet end of the circulating filter (30) is connected to the inlet end of the circulating spray pump (31) through a pipeline. The outlet end of the circulating spray pump (31) is connected to the inlet end of the main spray valve (44) through a pipeline. The outlet end of the drain pump (32) is connected to the inlet end of the drain control valve (48) through a pipeline. The outlet end of the drain control valve (48) is connected to the external drainage network through a pipeline. The waste liquid discharge branch of the cleaning agent: The components and connection method of the branch are as follows: the outlet of the cleaning agent storage tank (33) is connected to the inlet of the cleaning agent control valve (43) through a pipe, the outlet of the cleaning agent control valve (43) is connected to the inlet of the drain pump (32) through a pipe, the outlet of the drain pump (32) is connected to the inlet of the drain control valve (48) through a pipe, and the outlet of the drain control valve (48) is connected to the external drainage network through a pipe; The disinfection system consists of a disinfectant concentrate dilution branch, a disinfectant circulation disinfection branch, a sterile water rinsing branch for disinfectant residue, and a disinfectant waste liquid discharge branch. The components and connections of each branch are as follows: The disinfectant concentrate dilution branch includes a disinfectant concentrate injection branch and a clean water injection branch. The components and connection method of the disinfectant concentrate injection branch are as follows: the outlet of the disinfectant concentrate tank (28) is connected to the inlet of the disinfectant concentrate control valve (49) through a pipe; the outlet of the disinfectant concentrate control valve (49) is connected to the inlet of the disinfectant flow meter (50) through a pipe; the outlet of the disinfectant flow meter (50) is connected in parallel to the inlet of the infusion temperature sensor and the instantaneous heater A (37); the outlet of the infusion temperature sensor and the instantaneous heater A (37) is connected to the inlet of the check valve (38) through a pipe; the outlet of the check valve (38) is connected to the inlet of the disinfectant storage tank control valve (51) through a pipe; the disinfectant storage tank control valve (51)... The outlet end is connected to the inlet end of the disinfectant storage tank (34) through a pipeline; the components and connection method of the water injection branch are as follows: the outlet end of the external source water filter (40) is connected to the inlet end of the water control valve (41), the outlet end of the water control valve (41) is connected to the inlet end of the water flow meter (42) through a pipeline, the outlet end of the water flow meter (42) is connected in parallel to the inlet end of the infusion temperature sensor and the instantaneous heater A (37), the outlet end of the infusion temperature sensor and the instantaneous heater A (37) is connected to the inlet end of the one-way valve (38) through a pipeline, the outlet end of the one-way valve (38) is connected to the inlet end of the disinfectant storage tank control valve (51) through a pipeline, and the outlet end of the disinfectant storage tank control valve (51) is connected to the inlet end of the disinfectant storage tank (34) through a pipeline; The disinfectant circulation disinfection branch is as follows: the outlet of the disinfectant storage tank (34) is connected to the inlet of the disinfectant control valve (52) via a pipe; the outlet of the disinfectant control valve (52) is connected to the inlet of the circulation filter (30) via a pipe; the outlet of the circulation filter (30) is connected to the inlet of the circulation spray pump (31) via a pipe; the outlet of the circulation spray pump (31) is connected to the inlet of the main spray valve (44) via a pipe; and the outlet of the main spray valve (44) is connected to... The inlet of the circulating temperature sensor and instantaneous heater B (45) is connected to the outlet of the circulating temperature sensor and instantaneous heater B (45), which is connected to the inlet of the infusion pipe (25). The outlet of the infusion pipe (25) is connected in parallel to the inlet of the rotating mesh drum control valve (17), the inlet of the rack spray arm control valve (19), and the inlet of the ultrasonic cleaning and disinfection tank infusion control valve (21). The outlet of the rotating mesh drum control valve (17) is connected to the inlet of the spray arm (16), and the outlet of the spray arm (16) consists of multiple arranged spray nozzles. The hole is connected to the cleaning and disinfection chamber (2) and sprays disinfectant onto the rotating mesh drum (15); the outlet end of the rack spray arm control valve (19) is connected to the inlet end of the spray arm (16), the outlet end of the spray arm (16) has multiple spray holes arranged in a row, which are connected to the cleaning and disinfection chamber (2) and spray disinfectant onto the rack (18); the outlet end of the ultrasonic cleaning and disinfection tank infusion control valve (21) is connected to the inlet end of the ultrasonic cleaning and disinfection tank (20) through a pipeline, and the outlet end of the ultrasonic cleaning and disinfection tank (20) is connected to the inlet end of the ultrasonic cleaning and disinfection tank (20). The inlet end of the ultrasonic cleaning and disinfection tank drain control valve (22) is connected to the outlet end of the ultrasonic cleaning and disinfection tank drain control valve (22), which is connected to the cleaning and disinfection chamber (2). The bottom of the cleaning and disinfection chamber (2) is provided with a liquid discharge hole (24) inlet. The outlet of the liquid discharge hole (24) is connected to the inlet end of the disinfectant storage tank control valve (51) through a pipe. The outlet end of the disinfectant storage tank control valve (51) is connected to the inlet end of the disinfectant storage tank (34) through a pipe, thereby forming a disinfectant circulation cleaning branch. The sterile water rinsing disinfectant residue branch: the outlet end of the external sterile water pipe (53) is connected to the inlet end of the sterile water control valve (54). The outlet end of the sterile water control valve (54) is connected to the inlet end of the circulating temperature sensor and the instantaneous heater B (45) through a pipe. The outlet end of the circulating temperature sensor and the instantaneous heater B (45) is connected to the inlet end of the infusion pipe (25). The outlet end of the infusion pipe (25) is connected in parallel to the inlet end of the rotating mesh bucket control valve (17), the inlet end of the rack spray arm control valve (19), and the ultrasonic cleaning... The inlet end of the disinfection tank infusion control valve (21) is connected to the inlet end of the rotating mesh bucket control valve (17), which is connected to the inlet end of the spray arm (16). The outlet end of the spray arm (16) has multiple spray holes arranged in a row, which are connected to the cleaning and disinfection chamber (2) and spray sterile water onto the rotating mesh bucket (15). The outlet end of the rack spray arm control valve (19) is connected to the inlet end of the spray arm (16), which has multiple spray holes arranged in a row, which are connected to the cleaning and disinfection chamber (2) and spray sterile water onto the rack. (18) Above; the outlet end of the ultrasonic cleaning and disinfection tank infusion control valve (21) is connected to the inlet end of the ultrasonic cleaning and disinfection tank (20) through a pipeline, the outlet end of the ultrasonic cleaning and disinfection tank (20) is connected to the inlet end of the ultrasonic cleaning and disinfection tank drain control valve (22), and the outlet end of the ultrasonic cleaning and disinfection tank drain control valve (22) is connected to the cleaning and disinfection chamber (2); the bottom of the cleaning and disinfection chamber (2) is provided with a liquid discharge hole (24) inlet, and the outlet of the liquid discharge hole (24) is connected to the flushing drain through a pipeline. The inlet end of the flushing discharge valve (47) is connected to the inlet end of the circulating filter (30) and the drain pump (32) through a pipeline. The outlet end of the circulating filter (30) is connected to the inlet end of the circulating spray pump (31) through a pipeline. The outlet end of the circulating spray pump (31) is connected to the inlet end of the main spray valve (44) through a pipeline. The outlet end of the drain pump (32) is connected to the inlet end of the drain control valve (48) through a pipeline. The outlet end of the drain control valve (48) is connected to the external drainage network through a pipeline. The disinfectant waste liquid discharge branch: The components and connection method of the branch are as follows: the outlet of the disinfectant storage tank (34) is connected to the inlet of the disinfectant control valve (52) through a pipe, the outlet of the disinfectant control valve (52) is connected to the inlet of the drain pump (32) through a pipe, the outlet of the drain pump (32) is connected to the inlet of the drain control valve (48) through a pipe, and the outlet of the drain control valve (48) is connected to the external drainage network through a pipe; The components and their connections in the condensation drying system are as follows: the output end of the refrigeration compressor (5) in the refrigeration chamber (1) is connected in parallel with the inlet end of the inner condenser control valve (55) and the outer condenser control valve (56) through a refrigerant pipe; the outlet end of the inner condenser control valve (55) is connected to the inlet end of the inner condenser (14); the outlet end of the outer condenser control valve (56) is connected to the inlet end of the outer condenser (6); the outlet ends of the inner condenser (14) and the outer condenser (6) are connected to the inlet end of the dryer filter (57) through a refrigerant pipe; the outlet end of the dryer filter (57) is connected to the inlet end of the capillary tubes (58) on the left and right walls of the cleaning and disinfection chamber (2) through a refrigerant pipe; the outlet end of the capillary tubes (58) is connected to the inlet end of the evaporator (13); and the outlet end of the evaporator (13) is connected to the input end of the refrigeration compressor (5) through a refrigerant pipe. The cleaning and disinfection chamber (2) is equipped with an internal circulation fan (23) and a temperature and humidity sensor (59), thus forming the condensation drying system. The components and connections of the real-time detection system are as follows: The electrical control box (26) is connected to the touch screen (8), the real-time concentration detector (29), the infusion temperature sensor and instantaneous heater A (37), the circulating temperature sensor and instantaneous heater B (45), and the temperature and humidity sensor (59) through wires. It detects the temperature, humidity and concentration values ​​of the cleaning agent, disinfectant, clean water, sterile water and air in the cleaning and disinfection chamber (2) of the condensing drying cleaning and disinfection machine in real time, and adjusts the opening and closing of the infusion temperature sensor and instantaneous heater A (37), the circulating temperature sensor and instantaneous heater B (45), the cleaning agent concentrate control valve (35), the cleaning agent flow meter (36), the disinfectant concentrate control valve (49), the disinfectant flow meter (50), the internal condenser control valve (55), and the external condenser control valve (56) in real time according to the system set threshold.

2. The condensation drying type cleaning and disinfection machine according to claim 1, characterized in that: The rotating mesh barrel (15) is a hollow cylindrical shape and is installed in the chamber of the cleaning and disinfection chamber. Its bottom plane is parallel to the interior wall panel (63) of the cleaning and disinfection chamber (2). A direct drive motor (64) is installed on the back of the interior wall panel (63) of the cleaning and disinfection chamber (2). The bottom center of the rotating mesh barrel (15) is fixedly installed on the shaft of the direct drive motor (64).

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